Medical device engineering has never been simple, but the nature of that complexity is changing. As systems become more capable, the burden of integrating motion components has emerged as a primary design challenge.
For most of the industry's history, aerospace has treated custom-built as the default answer to demanding applications. The reasoning behind this was sound — the environments are punishing, the certification bar is uncompromising, and the consequences of failure are severe.
Across laboratories worldwide – from research and development to clinical diagnostics – laboratory professionals rely on pipettes to measure and dispense precise liquid volumes. Even small inconsistencies at this early step can cascade into costly failed assays, repeat testing, or compliance risks, making accuracy and repeatability essential. As a result, air‑displacement micropipettes are often the primary choice in modern testing environments.
In laboratory instruments, linear motion is where precision meets practicality. Whether positioning a pipette, advancing a fluid, or moving a sample through a preparation workflow, designers need motion that is accurate, repeatable, and dependable over long duty cycles.
As the robotics sector steadily moves from science fiction to factory floor, a new generation of humanoid robots is emerging to reshape industry, healthcare, and daily life. These machines are designed to do more than automate – they’re built to move like us, work alongside us, and, at times, even stand in for us.